Showing posts sorted by relevance for query william bynum. Sort by date Show all posts
Showing posts sorted by relevance for query william bynum. Sort by date Show all posts

Sunday, January 26, 2014

A Little History of Science by William Bynum

Though the edition I picked up didn’t look like a children’s book, William Bynum’s A Little History of Science is written for children. I’m in my forth decade and I enjoyed it anyway.

The title suggests the subject, but hardly the breadth. Bynum starts with the first, unnamed people to observe and think about the world around them. He ends with current science such as computer science and gene mapping.

It wouldn’t be write to say that depth suffers because of the breadth. Admittedly, each chapter covers a subject that could in itself provide enough material for a book. However, Bynum’s purpose is to provide an introduction to a lot of areas of science and to show how scientific knowledge grows and improves over time. It covers all the major branches of science including physics, chemistry, and biology. He does this very well.

For someone who wants a place to get started, especially a youngster interested in history or science, this is a good book. Though Bynum does not include a bibliography, he drops a lot of names. Almost every notable name in scientific history, and a few lesser known, is mentioned, so someone could be equipped with a list of names when the hit the card catalog to find the next book that might interest them.

I do not know if Bynum subscribes to the “big men” notion of history. As much as he mentions the major figures and the leaps some of them made, he emphasizes the incremental, even iterative, nature of science. Even so, learning history through biography can be interesting because history is the cumulative action of people, even if a single person can’t truly turn the tide, and some people are interesting, especially the cranky ones (like Isaac Newton). Bynum adds enough biographical touches to his history to add this kind of spice.

If you’re interested in these books, you may also be interested in


Bynum, William. A Little History of Science. New Haven, CT: Yale University Press, 2012.

Sunday, March 13, 2016

Ada's Algorithm by James Essinger

Ada Lovelace, daughter of poet Lord Byron, is arguably one of the first computer scientists in history. She wrote what some considered the first computer program about a century before any computer was built, especially anything we would recognize as computer. James Essinger presents a summary of her life, and particularly a defense of her accomplishments, in Ada’s Algorithm.

In any discussion relating to the Byrons, it’s easy to get distracted by Lovelace’s father. In addition to being a famous poet, he lived a high life (often on the money of others) and had many lovers. Lady Byron, who separated from Byron and preserved her family wealth from his extravagances, made sure their only daughter had minimal contact with him. Lovelace had an education in math and science very unlike other women of her time because Lady Byron hoped it might counterbalance any of the excesses the girl may have inherited from the wild Byrons.

Lovelace took to math quite well. In a later age, she might have become a professional mathematician. In her own 1800s, her tutors sometimes complained that she reached too far for a woman, and strove to grasp at realms of math that only men had the stamina to explore. Fortunately her mother, and later her husband, William, Lord King, Baron of Ockham (later elevated to Earl of Lovelace), did not let such foolishness restrain her mathematical education.

She was still quite young, only 17, when she met the much older Charles Babbage, inventor of the partly build Difference Engine and never built Analytical Engine. The Analytical Engine was a calculating machine that could be programmed using punch cards. Though it was a mechanical device, not an electronic computer, Babbage’s structure (processor, memory, input and output) is the same structure of modern computers. Not only did Babbage conceive of computers a century before one was built, he drew plans for substantially completing such a machine, though the manufacturing technology of the time could not have made the parts required.

Lovelace was a friend of Babbage for many years. In 1843, about 10 years after they met, Lovelace published a paper explaining the operation and capabilities of Babbage’s machine. She had an even larger vision of it than the inventor. He saw the Analytical Engine as a tool for performing complex calculations accurately. She saw that it could do more than mathematical calculations; it could manipulate any symbols in almost any way instructed, so it might “compose” music by manipulating notes according so some rules, or perform logical functions, or handle any other information that might be digitized. She foresaw that what we now call computer science would become a discipline distinct from math.

She thought the paper might be better received if it was unsigned, but at the encouragement of her husband she published it under her initials. It was quickly discovered that “A. A. L.” was a woman, and almost a quickly dismissed as irrelevant. It wasn’t until the 20th Century, when people were actually building digital computers, that the work of Babbage and Lovelace received some respect. Though modern computers do not have a technological connection to the Analytical Engine that was never built, it certainly has a strong conceptual connection.

If you’re interested in this book, you may also be interested in


Essinger, James. Ada’s Algorithm: How Lord Byron’s Daughter Ada Lovelace Launched the Digital Age. 2013. Brooklyn: Melville House, 2014.

350 Books Reviewed on Keenan's Book Reviews

I’ve posted reviews of 350 books on this blog. It’s hard to believe.  Here are links to the 50 most recent posts. Further down are links to more reviews.

First Time Reviews











Additional and Expanded Reviews


Continuation of list of 350 books reviewed

Sunday, August 28, 2016

Why Science Does Not Disprove God by Amir Aczel

New Atheism is a movement that arose after the attacks of September 11, 2001. Proponents of the movement blame religion for nearly all the violence and disorder in the world, and they aim to eliminate it and any belief in God. Many New Atheism writers call upon science for proofs that there is no God, such as biologist Richard Dawkins and physicist Lawrence M. Krauss. These arguments have been picked up by Sam Harris, Daniel Dennet and old-school atheist Christopher Hitchens.

Amir D. Aczel, a mathematician and science writer, argued that these authors misappropriated science for this purpose, sometimes misapplying it, misrepresenting it, or propagating misunderstandings. He presented his arguments in Why Science Does Not Disprove God.

Aczel’s perspective is very scientific, though he respects religion. He accepts the prevailing theories of cosmology that our universe began in the Big Bang. He accepts that evolutionary processes have produced higher and more complicated life forms from simpler ones though natural selection.

Aczel begins by addressing the archeological support for Biblical history. While he does not suggest that there is evidence of Biblical miracles, there is a lot of evidence supporting the historical narratives of the Bible. While New Atheism argues there is no archeological evidence to support the Bible, Aczel shows that there is abundant support for the history described in it.

Another popular argument of the New Atheists is that quantum theory demonstrates that the universe arose spontaneously out of nothing. Aczel describes how quantum theory actually shows that we cannot know some details about the earliest moments of the universe following the Big Bang and that it cannot at all address what was before the Big Bang. No theory of physics supposes it came from nothing. Some argue that it arose spontaneously, but it still occurred in due to physical process in a medium that existed before the universe, which itself raises many of the same questions of origins.

This points to the crux of Aczel’s argument. Science, math, and logic all point to their own limitations. There are huge unanswered, important questions in science, not the least of which is what is consciousness and how it came to be. We may not be able to answer such questions and there is certainly some knowledge that is not accessible to us. New Atheism proponents present science as having firm answers to these questions when it sometimes only has speculation or no real answers at all. Science may someday uncover some of this knowledge, but in can’t uncover all of it.

While he demonstrates that science doesn’t, and cannot, disprove God, he does not suggest that it can or will prove the existence of God. Aczel believes that God may be outside of what can be known through science, mathematics or even the human mind.

Aczel still has a great appreciation for science, and he wants others to appreciate it, too. His argument with New Atheism is that its proponents misuse science and misdirect people. He would rather we engage science for all the great knowledge it can bring us, not coopt it in a crusade against religion or a debate about God it may never be able to answer.

Why Science Does Not Disprove God is not written in a technical style. Most people should be able to understand it even if they have very little scientific education.

If you’re interested in this book, you may also be interested in

Amir D. Aczel also wrote


Aczel, Amir D. Why Science Does Not Disprove God. New York: William Morrow, 2014.

Sunday, October 28, 2018

The Computers of Star Trek by Lois Gresh & Robert Weinberg


Star Trek fans, I’m one of them, have praised the show for the way it has anticipated technology. It used to be quite the thing to compare a flip phone to the Trek communicator.

However, have you ever watched a rerun of the show and seen something that now seems quaint, even ridiculous, especially when it comes to computers? Back in 1999, Lois Gresh and Robert Weinberg published observations like this, along with a few kudos for the shows, in The Computers of Star Trek.

The book covers episodes from the original series (TOS), The Next Generation (TNG), Deep Space Nine, Voyager and the films through Insurrection. While all the series, even the more recent prequel series Enterprise, depict a technologically advance future, none are focused on technology. They are more focused on telling stories that deal with the social issues in the periods in which they were made.

Gresh and Weinberg note this: Trek computers are mainly supersized versions of the computers of the time the show is made. In some ways, the Federation computers in the show are throwbacks to 1970s and earlier era mainframes, even though smaller, networked computers were becoming the dominant model when the revival series started in the late 1980s. This continued even as the Internet emerged and became part of the popular culture.

Of course the producers of the show aren’t especially interested in how computers actually work; they want to make an entertaining TV show and sometimes explore what is going on the society around them through the lens of a fictional future. Trek is interesting in this regard because it shows the attitudes of people about computers over time. In TOS computers are regarded with skepticism: computers break down, Spock is a hacker who takes over the ship, artificial intelligences take over planets but get fried by the illogic of emotions. By the time of TNG, computers are ubiquitous and acceptable—everyone uses them—but the threat of the Borg show concerns that computers might take over our lives and cause us to be depersonalized, destroying our individual identities.

An almost 20 year old book can’t help to be out of date, and the authors inevitably miss on some predictions. For instance, in their criticism of Trek’s take on medicine (not very advanced at all except when it is practically magic), the mention Army research into smart shirts that will monitor wearers for vital signs and injuries. It was a tee shirt with sewn in sensors that could be made for $30 (in 1998 dollars). Though we now have a lot of wearable technology, hospitals, soldiers and health nuts aren’t making use of cheap tees that keep track of their status moment by moment.

I don’t bring this up to knock the authors’ predictions. It’s hard to predict the future, especially by projecting from the current state of the art. Trek writers arguably haven’t tried very hard, but the show really isn’t about technology anyway.

If you’re interested in this book, you may also be interested in:

Gresh, Lois, & Robert Weinberg. The Computers of Star Trek. New York: Basic Books, 1999.

Sunday, December 21, 2014

A Professor, a President, and a Meteor by Cathryn J. Prince

A Professor, a President, and a Meteor, a book by Cathryn J. Prince, is a biography of Benjamin Silliman. Silliman helped to establish the United States as a scientific leader.

Silliman was part of the post-Revolutionary generation. His father, Gold Selleck Silliman, was a general in the Continental Army. Benjamin Silliman had hoped to make a name for himself in the law, but was persuaded by a family friend to pursue science, though it was not a career likely to lead to prominence in America.

American science was not well regarded in those days, especially in Europe. A falling star, and Silliman’s diligent and careful study, changed that.

In 1807, a large meteor fell over Weston, Connecticut. Silliman, a very young, new professor of chemistry at Yale, and his colleague James Kingsley, went as quickly as they could to the remote community. The carefully interviewed witnesses, surveyed the location of meteorites, and collected samples. Silliman took samples back to New Haven to analyze them in his lab.

Silliman helped to establish that meteors originated in outer space. Popular theories at the time were that they came for lunar or terrestrial volcanoes or somehow formed in the atmosphere. The notion that something from outer space could fall to Earth was radical.

Silliman other contributions to American science were his work as a popularizer and mentor. He was an able teacher and able to communicate science to a broad audience. His public lectures on science around the country were very popular. He also helped to train a generation of American scientists. At the beginning of his career, he had to go to Europe to study chemistry and geology, at the end of his career and budding scientist could be educated in the U.S.

Silliman’s ability to reach the people of his day was his devotion to his Christian faith. He saw no serious conflict between his religion and his science. He was able to stay out of debates with clergymen that would have brought opposition to his scientific views.

In spite of the title, I found little reason to drag the president into it. Thomas Jefferson was in office at the time of the Weston Fall. Silliman, like other New England Federalists, had little liking for his policies, nor did Jefferson much care for his adversaries in the region. In addition, the president did not highly esteem geology or astronomy, instead preferring biological sciences that he considered to have more practical application. Prince brings up these difference in the book, but they never seem to add up to a serious conflict between Silliman and Jefferson.

Prince, Cathryn J.  A Professor, a President, and a Meteor: The Birth of American Science. Amherst, NY: Prometheus Books, 2011.

If you’re interested in this book, you may also be interested in

Saturday, November 15, 2014

Better for All the World by Harry Bruinius

Harry Bruinius takes the title of his book, Better for All the World, from a quote from famous United States Supreme Court Justice Oliver Wendell Holmes, Jr.  In his opinion, written for a court majority that authorized states to forcibly sterilize some people, Holmes expressed the notion that it was better to sterilize a defective person than to permit them to have defective children who may place greater burden on government systems for justice and welfare.

This legal justification for forced sterilization was just one of the policy victories of the eugenics movement in the America. Eugenicists were also influential in establishing state marriage laws and federal immigration quotas and restrictions.

Even from its start, notions of social engineering and politics tinged the science of eugenics. Francis Galton coined the word that applied to both the study of heredity and the improvement of humanity through selective breeding over generations. Galton established the field based on concepts from his cousin Charles Darwin’s books on evolution, Gregor Mendel’s studies of plant heredity, and his own statistical studies of human characteristics. Though he mostly kept these speculations to himself, he considered the possibility of improving humans through breeding just as farmers improved plants and livestock.

American reformers of all political persuasion welcomed Galton’s ideas; they were looking for reliable, scientific means of tackling poverty and crime. Galton’s method were used to study families and supposedly proved that traits related to poverty, criminality, low intelligence, and the harder to recognize (therefore more dangerous) feeblemindedness. These studies also uncover a troubling pairing in females of feeblemindedness and fecundity. The implication was that the good stock of moral, productive Americans risked overrun by a class of hereditary degenerates. America’s best needed to produce larger family, and its poor and feebleminded needed to be restrained from passing on their inferior traits.

Much of Bruinius’ book focuses on this American eugenics movement. Representing leadership in the scientific community is Charles Davenport. He popularized the work of Galton, convinced the Carnegie Institute to fund a station to study eugenics, and did research that contributed to the early development of genetics. Representing the bridge between science and policy is Harry Laughlin. A Missourian and a protégé of Davenport, his reports and advice to Congress helped to inform restrictive immigration policy and support state programs of forced sterilization of convicts and the feebleminded, ultimately upheld in by the Supreme Court, as previously mentioned, in the case of Buck vs. Bell.

The development of eugenics policy in the U.S. was being watched overseas. In particularly, racial purity laws enacted by the Nazis in Germany explicitly cited American research and legal precedents. Many reformers in America and elsewhere were gratified by the apparent success of eugenics policies in Germany.

Even as it was reaching its peak as a political reform movement, laboratory science was undermining eugenics. Laboratory studies of the mechanisms of heredity, which had discovered chromosomes by the 1930s, were showing that heredity and the expression of traits, especially moral or personality traits, were much more complicated and harder to predict than the eugenicists assumed. Through its association with the Nazis, eugenics became wholly discredited in the public mind, though its effects lingered in American policies for decades.

Our understanding of genetics and heredity has improved a lot. Biotechnology has made a new kind of genetic engineering possible. The eugenicist dreams of eliminating disease and creating better people in future generations is more attainable than ever, at least in limited ways.

If this puts our evolution in our hands, are we ethically and morally evolved enough to use this power? Are humans intelligent animals or are we unique creatures? Are human rights inalienable characteristics of human beings, or are they social constructs, ideas that can rise, fade, or change like other ideas? How does the good of the species relate to the good of the individual? What does it mean to be a parent? The way we answer these questions, and other related to the implications of our science and technology, will establish what kind of people we are, and possibly the destiny of generations to come.

If you’re interested in this book, you may also be interested in


Bruinius, Harry. Better for All the World: The Secret History of Forced Sterilization and America’s Quest for Racial Purity. New York: Alfred A. Knopf, 2006.